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The Biggest Fall in Carbon Emissions Since WW2 Could Be Short-Lived

Foto-Ilustracija: Pixabay

Experts warn that without structural change, emissions declines caused by coronavirus could be short-lived as economies get back to normal.

* Emissions have to peak in 2020 to hit climate goals

* Experts differ on likely impact of the coronavirus

* Only lasting downward trend will curb climate change

Photo-illustration: Pixabay

Carbon dioxide emissions could fall by the largest amount since World War Two this year as the coronavirus outbreak brings economies to a virtual standstill, according to the chair of a network of scientists providing benchmark emissions data.

Rob Jackson, who chairs the Global Carbon Project, which produces widely-watched annual emissions estimates, said carbon output could fall by more than 5% year-on-year — the first dip since a 1.4% reduction after the 2008 financial crisis.

“I wouldn’t be shocked to see a 5% or more drop in carbon dioxide emissions this year, something not seen since the end of World War Two,” Jackson, a professor of Earth system science at Stanford University in California, told Reuters in an email.

“Neither the fall of the Soviet Union nor the various oil or savings and loan crises of the past 50 years are likely to have affected emissions the way this crisis is,” he said.

The prediction – among a range of new forecasts being produced by climate researchers – represents a tiny sliver of good news in the midst of crisis: Climate scientists had warned world governments that global emissions must start dropping by 2020 to avoid the worst impacts of climate change.

But the improvements are for all the wrong reasons, tied to a world-shaking global health emergency that has infected more than 950,000 people – while shuttering factories, grounding airlines and forcing hundreds of millions of people to stay at home to slow the contagion.

Experts warn that without structural change, the emissions declines caused by coronavirus could be short-lived and have little impact on the concentrations of carbon dioxide that have accumulated in the atmosphere over decades.

“This drop is not due to structural changes so as soon as confinement ends, I expect the emissions will go back close to where they were,” said Corinne Le Quéré, a climate scientist at the University of East Anglia in eastern England.

After world greenhouse gas emissions dipped in the aftermath of the 2007-2008 global financial crisis, they shot back up a whopping 5.1% in the recovery, according to Jackson.

The pattern of a swift rebound has already begun to play out in China, where emissions fell by an estimated 25% as the country closed factories and put in place strict measures on people’s movement to contain the coronavirus earlier this year, but have since returned to a normal range.

That kind of resilience underscores the magnitude of the economic transformation that would be needed to meet the goals of an international deal brokered in Paris in 2015 to try to avert the most catastrophic climate change scenarios.

A U.N. report published in November found that emissions would have to start falling by an average of 7.6% per year to give the world a viable chance of limiting the rise in average global temperatures to 1.5C, the most ambitious Paris goal.

“I don’t see any way that this is good news except for proving that humans drive greenhouse gas emissions,” said Kristopher Karnauskas, associate professor at the Department of Atmospheric & Oceanic Sciences at the University of Colorado Boulder.

Vanishingly thin

With the world dependent for fossil fuels for 80% of its energy, emissions forecasts are often based on projections for global economic growth.

Last month, Glen Peters, research director of the Center for International Climate Research in Oslo, predicted carbon emissions would fall between 0.3% and 1.2% this year, using higher and lower forecasts for global GDP growth from the OECD.

A few days later, the Breakthrough Institute, a research centre in California, predicted emissions will decline 0.5-2.2%, basing its calculations on growth forecasts from JP Morgan, and assuming the global economy recovers in the second half.

“Our estimates indicate that the pandemic’s climate silver lining is vanishingly thin,” said Seaver Wang, a climate and energy analyst at the institute.

“It’s as if we went back in time and emitted the same amount we were a few years ago — which was already too much. In the grand scheme of things, it really makes no difference.”

Some foresee a bigger hit to the economy. The London-based Centre for Economics and Business Research estimates that world GDP will fall by at least 4% this year — albeit with a “huge margin of error.”

That drop would be more than twice as large as the contraction during the financial crisis, and the largest annual fall in GDP since 1931, barring wartime, the centre said.

With governments launching gigantic stimulus packages to stop their economies collapsing, investors are now watching to see how far the United States, and China, the European Union, Japan and others embrace lower-emission energy sources.

“Even if there is a decline in emissions in 2020, let’s say 10% or 20%, it’s not negligible, it’s important, but from a climate point of view, it would be a small dent if emissions go back to pre-COVID-19 crisis levels in 2021,” said Pierre Friedlingstein, chair in mathematical modelling of the climate system at the University of Exeter in southwest England.

“This is why it is important to think about the nature of the economic stimulus packages around the world as countries come out of the most immediate health crisis,” said Dan Lashof, U.S. director at the World Resources Institute.

Source: WEF

WMO Is Concerned About Impact of COVID-19 on Observing System

Photo: WMO

The World Meteorological Organization (WMO) is concerned about the impact of the COVID-19 pandemic on the quantity and quality of weather observations and forecasts, as well as atmospheric and climate monitoring.

Photo: WMO

WMO’s Global Observing System serves as a backbone for all weather and climate services and products provided by the 193 WMO Member states and territories to their citizens. It provides observations on the state of the atmosphere and ocean surface from land-, marine- and space-based instruments. This data is used for the preparation of weather analyses, forecasts, advisories and warnings.

“National Meteorological and Hydrological Services continue to perform their essential 24/7 functions despite the severe challenges posed by the Coronavirus pandemic,” said WMO Secretary-General Petteri Taalas. “We salute their dedication to protecting lives and property but we are mindful of the increasing constraints on capacity and resources,” he said.

“The impacts of climate change and growing amount of weather-related disasters continue. The COVID-19 pandemic poses an additional challenge, and may exacerbate multi-hazard risks at a single country level. Therefore it is essential that governments pay attention to their national early warning and weather observing capacities despite the COVID-19 crisis,” said Mr Taalas.

Large parts of the observing system, for instance its satellite components and many ground-based observing networks, are either partly or fully automated. They are therefore expected to continue functioning without significant degradation for several weeks, in some cases even longer. But if the pandemic lasts more than a few weeks, then missing repair, maintenance and supply work, and missing redeployments will become of increasing concern.

Some parts of the observing system are already affected. Most notably the significant decrease in air traffic has had a clear impact. In-flight measurements of ambient temperature and wind speed and direction are a very important source of information for both weather prediction and climate monitoring.

Meteorological data from aircraft

Commercial airliners contribute to the WMO Aircraft Meteorological Data Relay programme (AMDAR), which uses onboard sensors, computers and communications systems to automatically collect, process, format and transmit meteorological observations to ground stations via satellite or radio links.

The AMDAR observing system produces over 800 000 high-quality observations per day of air temperature and wind speed and direction, together with the required positional and temporal information, and with an increasing number of humidity and turbulence measurements being made. Currently 43 airlines and several thousand aircraft contribute to the AMDAR programme, which is expected to be significantly expanded in the coming years as a result of a joint collaboration on the programme with IATA.

In many parts of the world, in particular over Europe and the United States, the decrease in the number of commercial flights has resulted in a reduction from around fifty to more than eighty percent of observations of meteorological measurements from aircraft platforms over the last couple of weeksThe countries affiliated with EUMETNET, a collaboration between the 31 national weather services in Europe, are currently discussing ways to boost the short-term capabilities of other parts of their observing networks in order to partly mitigate this loss of aircraft observations.

Additionally, WMO, EUMETNET and national AMDAR programme partners have collaborated with the avionics company FLYHT to ensure any available additional aircraft observations from their own network of airlines are made available during the COVID-19 emergency period to WMO and its members.

Surface-based observations

In most developed countries, surface-based weather observations are now almost fully automated.

However, in many developing countries, the transition to automated observations is still in progress, and the meteorological community still relies on observations taken manually by weather observers and transmitted into the international networks for use in global weather and climate models.

WMO has seen a significant decrease in the availability of this type of manual observations over the last two weeks. Some of this may well be attributable to the current coronavirus situation, but it is not yet clear whether other factors may play a role as well. WMO is currently investigating this.

“At the present time, the adverse impact of the loss of observations on the quality of weather forecast products is still expected to be relatively modest. However, as the decrease in availability of aircraft weather observations continues and expands, we may expect a gradual decrease in reliability of the forecasts,” said Lars Peter Riishojgaard, Director, Earth System Branch in WMO’s Infrastructure Department.

“The same is true if the decrease in surface-based weather observations continues, in particular if the COVID-19 outbreak starts to more widely impact the ability of observers to do their job in large parts of the developing world. WMO will continue to monitor the situation, and the organization is working with its Members to mitigate the impact as much as possible,” he said.

In order to partly mitigate the impact of the decrease in aircraft observations, some WMO Members, in particular in Europe, have increased the number of radiosonde launches. Radiosondes are flown on weather balloons and transmit measurements critical meteorological variables back to the ground during their flight from the surface up to altitudes of 20 to 30 kilometers.

WMO is also monitoring the exchange of observations from the marine observing systems, which provide critical information from the 2/3 of the earth’s surface that are covered by the oceans. Most of these systems are highly autonomous, but over time the amount of observations will decrease due to missed opportunities for repair, replacement or resupply work caused by the COVID-19 outbreak. At the present time, a modest reduction in the number of observations from ships and some autonomous observing platforms has been noted. However, the impact is not yet dramatic.

Space-based observations

On a positive note, the present situation demonstrates the importance and stability of the space-based observing system component, on which WMO Member are increasingly relying. Currently, there are 30 meteorological and 200 research satellites, providing continuous, highly automated observations. The satellites are operated by members of the Coordination Group for Meteorological Satellites (CGMS) and of the Committee on Earth Observation Satellites (CEOS). While in the short run the space-based observing system component is expected to remain unaffected and fully operational, WMO is in contact with meteorological satellite operators to assess the possible long-term impact of COVID-19.

In addition, there are over 10 000 manned and automatic surface weather stations, 1 000 upper-air stations, 7 000 ships, 100 moored and 1 000 drifting buoys, hundreds of weather radars and 3 000 specially equipped commercial aircraft measure key parameters of the atmosphere, land and ocean surface every day.

Source: WMO

Energy Community Launches E-Forum for Gas Distribution System Experts

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Since 2016, the Energy Community Coordination Platform for distribution system operators for gas (ECDSO-G) convenes twice per year.  Following requests for more regular communication and to deepen the level of discussion during 2019, the Secretariat launched a web-based interactive discussion forum. Its purpose is to facilitate discussion, experience sharing, exchange of views and kick-start new initiatives among experts interested in distribution system operation.

The Forum aims to tackle pertinent topics such as unbundling, measurement and network losses, tariffs, network optimisation, gas quality and acceptance of renewable gases in the future. However, given the timing of the forum’s launch, the first discussion will be devoted to measures related to COVID-19.

The discussion forum is open to members of the ECDSO-G Coordination Platform only. If you are eligible, please contact Mr. Nenad Sijakovic (nenad.sijakovic@energy-community.org) or Mrs Karolina Cegir (karolina.cegir@energy-community.org) to receive login information and access rights.

Source: Energy Community

3D-Printed Coral Mimics Nature

Photo-illustration: Pixabay

Most of us have heard that coral reefs around the world are dying, largely because of warmer ocean temperatures and the increased acidity of seawater, but few people realize why that is important to humans. Who really cares if the Great Barrier Reef off the coast of Australia is nearly lifeless? So a few rich scuba divers won’t get to see it. Boo-hoo. Actually, it’s a little more complicated than that.

Photo: NOAA

Let’s begin by explaining what coral is. Is it a plant? Is it an animal? Actually, it’s a little of both. The coral on the outside provides a framework for algae who live inside. The algae actually convert sunlight via photosynthesis to produce food for themselves and the coral. The living coral, in turn, provides a habitat for hundreds of species of marine life — species that form a vital link in the food chain that hundreds of millions of people rely on for their daily sustenance. Those little algae may seem insignificant, but without them many people would die of malnutrition.

Researchers at the University of Cambridge and UC San Diego say they have found a way to 3D-print a bionic coral that supports the photosynthesis capabilities of algae. “Corals are highly efficient at collecting and using light,” said first author Daniel Wangpraseurt, a professor of chemistry at Cambridge. “In our lab, we’re looking for methods to copy and mimic these strategies from nature for commercial applications.”

That is critical for replicating structures with live cells, says co-author Shaochen Chen of UC San Diego. “Most of these cells will die if we were to use traditional extrusion-based or inkjet processes because these methods take hours. It would be like keeping a fish out of the water. The cells that we work with won’t survive if kept too long out of their culture media. Our process is high throughput and offers really fast printing speeds, so it’s compatible with human cells, animal cells, and even algae cells in this case.”

The researchers tested various types of micro-algae and found growth rates of some were 100 times higher than in standard liquid growth mediums. They used a rapid 3D-bioprinting technique capable of reproducing detailed structures that mimic the complex designs and functions of living tissues. The technique uses an optical analogue to ultrasound called optical coherence tomography to scan living corals and utilize the models for their 3D-printed designs.

The custom-made 3D-bioprinter uses light to print coral micro-scale structures in seconds. The printed coral copies natural coral structures and light-harvesting properties, creating an artificial host micro-environment for the living microalgae with micrometer scale resolution in just minutes. The coral inspired structures are highly efficient at redistributing light, just like natural corals.

“We developed an artificial coral tissue and skeleton with a combination of polymer gels and hydrogels doped with cellulose nano-materials to mimic the optical properties of living corals,” says co-author Silvia Vignolini, also of the Department of Chemistry at Cambridge. “Cellulose is an abundant bio-polymer. It is excellent at scattering light and we used it to optimize delivery of light into photosynthetic algae.”

Wangpraseurt adds, “By copying the host micro-habitat, we can also use our 3D bio-printed corals as a model system for the coral-algal symbiosis, which is urgently needed to understand the breakdown of the symbiosis during coral reef decline. There are many different applications for our new technology.

“We have recently created a company called Mantaz that uses coral inspired light harvesting approaches to cultivate algae for bio-products in developing countries. We hope that our technique will be scalable so it can have a real impact on the algal bio-sector and ultimately reduce greenhouse gas emissions that are responsible for coral reef death.”

According to TechCrunch, the research is not seen as a way to restore dying coral reefs, but rather as a way to create reef-like structures that can be studied in the laboratory. That could lead to a better understanding of the ecosystem in which the coral-algae partnership thrives and how it can be nurtured. The knowledge gained, in turn, could help rescue coral reefs around the world from further damage and deterioration.

Author: Steve Henley

Source: Clean Technica

What to Do With Healthcare Waste?

Photo-illustration: Pixabay

Interview with Keith Alverson, Director of the United Nations Environment Programme (UNEP) International Environmental Technology Centre in Osaka, Japan. The Centre has produced a Compendium of Technologies for Treatment/Destruction of Healthcare Waste, a scientific and practical publication covering all aspects of medical waste—a topic that is highly relevant to the current novel coronavirus COVID-19 pandemic.

Photo-illustration: Pixabay

Please describe the document and how it can help in this current pandemic?

The compendium is intended to assist national and local governments, health organizations and countries in assessing and selecting appropriate technologies for the destruction of healthcare waste. It can help those with responsibility for planning and managing the significant increase in medical waste as a result of this global pandemic.

What is healthcare waste?

Healthcare waste is all the waste generated by healthcare facilities, medical laboratories and biomedical research facilities, as well as waste from minor or scattered sources. Although hospitals produce the bulk of healthcare waste by volume, they are a small fraction of the total number of sources.

Improper treatment and disposal of healthcare waste poses serious hazards of secondary disease transmission due to exposures to infectious agents among waste pickers, waste workers, health workers, patients, and the community in general where waste is improperly disposed.

Open burning and incineration without adequate pollution control exposes waste workers and the surrounding community to toxic contaminants in air emissions and ash.

How much medical waste does an average hospital produce?

An assessment of waste generation rate data from around the world shows that about 0.5 kg per bed per day is produced in hospitals. However, this figure, and the underlying composition of the waste, varies enormously depending on local context, with higher-income countries generating far higher levels of waste and plastic, for example, often making up more than half of all medical waste. Because of this huge diversity, there is no single best solution to dealing with medical waste.

The compendium provides a robust methodology for analysing local healthcare waste generation, composition and disposal needs and selecting appropriate technologies as part of a local waste management system.

Which kind of medical waste is most risky in terms of spreading infectious diseases?

Healthcare waste can be categorized according to the following general classifications: sharps waste, pathological waste, other infectious wastes, pharmaceutical waste including cytotoxic waste, hazardous chemical waste, radioactive waste, and general (non-risk) waste.

In general, between 75 and 90 per cent of the waste produced by healthcare facilities is non-risk (non-infectious, non-hazardous) general waste, comparable to domestic waste. Infectious waste is waste that is suspected to contain pathogens (disease-causing bacteria, viruses, parasites, or fungi) in sufficient concentration or quantity to cause disease in susceptible hosts.

The Compendium talks about segregation of medical waste. What does this segregation mean?

Segregation is an important element in efficient healthcare waste management. By separating hazardous from non-hazardous waste one can dramatically reduce the volume of waste that requires specialized treatment. Other elements of healthcare waste management include waste classification, waste minimization, containerization, colour coding, labelling, signage, handling, transport, storage, treatment and final disposal. And, of course, to maintain such a system requires continuous training, planning, budgeting, monitoring, evaluation, documentation and record-keeping.

What should countries do to implement a waste management policy for medical waste?

The process of institutionalization of a good healthcare waste management system is complex. It entails a waste assessment and evaluation of existing practices, evaluation of waste management options, development of a waste management plan, promulgation of institutional policies and guidelines, establishment of a waste management organization, allocation of human and financial resources, implementation of plans according to a set timelines, as well as a programme of periodic training, monitoring, evaluation and continuous improvement.

How can this compendium inform coronavirus waste management for hospitals?

Countries, cities and institutions that have used this compendium, or other similar tools, and developed an operating waste management system, are far better able to cope with surges in medical waste associated with disasters, including the ongoing pandemic. The best medical waste management systems include contingency plans for natural disasters, including pandemics.

The compendium is, however, a risk reduction tool, very useful and relevant to the pandemic response over a medium- to longer-term timescale from months to years, but must be complemented with rapid response guidelines for emergency operations in real time.

What are the basic processes involved in the treatment of healthcare waste?

There are four basic processes involved in the treatment of healthcare waste: thermal, chemical, irradiative and biological processes.

The unfortunate reality worldwide is, however, that an enormous amount of healthcare waste, including waste generated as a result of our pandemic responses, is either mistreated with improperly maintained technologies, or not treated at all.

For more information, please contact Keith Alverson: Keith.Alverson@un.org

Source: UNEP

World’s First Zero Emission Construction Site

Photo: Suncar HK
Photo-illustration: SUNCAR HK

Even in cities like Oslo, Norway, which is typically thought of as progressive and “green”, more than 20% of the total CO2 emissions comes from heavy-duty construction equipment. That’s a huge number, and you can bet that older, less regulated machines in other major cities are even worse. That fact has motivated the authorities in Oslo to enact laws that say all new, public buildings must be built with “fossil-free” construction machinery. The jobsite you see here, featuring a ZE85 battery-powered electric excavator from Suncar HK, is just such a fossil-free site. What’s more, it’s believed to be the first zero emission, all-electric jobsite of its kind.

Norway’s new laws banning heavy polluters like diesel construction machines and even passenger cars from certain city centers are hardly unique. Cities like Barcelona, London, and Beijing have already passed similar laws that will go into effect in the coming years, and it’s hard to believe other countries won’t get in on the act soon, with the general public having seen how good things can get, and how quickly.

Those laws also explain why so many heavy equipment companies — including Liebherr, CASE, and Volvo CE — are spending heavily on R&D to electrify their lineup.

You can see the Suncar ZE85 battery-powered excavators get to work in this surprisingly quiet video, below, and check out the official Suncar press release below that.

Fast charging on the construction site: Swiss BEV excavator on a zero-emission construction site in Oslo

The ZE85 battery-powered electric excavator, which was presented last May at the world’s largest construction trade fair, bauma19 in Munich, is now being successfully operated on a zero-emission construction site in Norway. It is the first electric excavator with an integrated CCS fast-charging interface as it is known from electric cars. This enables full charging in under an hour.

Photo: Suncar HK

Here is an enormous potential to reduce emissions on construction sites. In Oslo, for example, around 21% of CO2 emissions are emitted by construction machinery. Therefore, the authorities in Oslo have defined in their procurement strategy that all public buildings must be built with “fossil-free” construction machinery. The European Commission is also setting the trend, issuing guidelines in the areas of “Buying green” and “Green Public Procurement” and regulating emissions on construction sites. As a result, clean technologies such as battery-powered construction machinery are also finding their way into the construction industry.

In order to be able to tap into this rapidly growing market, more and more construction machinery manufacturers are electrifying their machines. At the R&D site of the Zurich-based start-up company SUNCARHK AG, excavators and other construction machines are electrified on behalf of major manufacturers such as Hitachi, Liebherr and others. The battery-powered vehicles and machines are successfully in use throughout Europe. The ZE85 electric excavator, developed together with SUNCAR, is in operation in Oslo on a zero-emission construction site, i.e. a construction site where only electrically driven construction machines are used. New and special to the battery-powered ZE85 excavator is the CCS fast charging interface, which is already standard on electric cars.

The electric excavators can be operated both in battery and cable mode. They have an onboard charger and can be charged at a worksite distribution board via a standard CEE three-phase power socket. The ZE85 excavator used in Oslo has a DC charging connection which reduces the charging time to three quarters of an hour.

With the vehicle-side modular DC charging system INTERFLOW, developed by SUNCAR, such a DC fast charging interface can be integrated into a vehicle or machine with little effort. The system enables the DC fast charging of high-voltage batteries up to 280 kW according to the CCS (Combined Charging System) protocol known from electric vehicles. This system can be integrated into any other battery-powered vehicle or machine with a system voltage of up to 800 VDC and a maximum charging current of 350 A and can be combined with an on-board charger.

Author: Jo Borrás

Source: Clean Technica, Suncar HK

 

Next Generation Farming With Solar Panels

Photo-illustration: Pixabay

Solar panels are sprouting on farmland like mushrooms after the rain, but there’s no such thing as a free lunch. If too many solar panels replace too much cropland, there goes the food supply. However, farmers are beginning to learn how to do their farming within solar arrays, and in a new green twofer, solar arrays could actually help push the regenerative agriculture movement into the mainstream.

Photo-illustration: Pixabay

Solar panels + farming, good

The first twist in the field of solar + farming was a relatively simple one. Raise the solar panels just a few extra feet off the ground, and you can graze sheep and other animals on the same land. You can also use the land for pollinator habitat. Et voilà, there you have something new called agrivoltaics.

Of course, raised solar panels can involve some extra cost, but that could be counterbalanced by an increase in efficiency. Researchers are beginning to amass evidence that allowing plants to flourish under a raised solar array can improve solar cell efficiency by creating a cooling microclimate.

As for growing human-edible crops, that’s a tougher row to hoe. For starters, the solar panel racks would limit the width and height of motorized farm equipment. That’s not necessarily a deal breaker, but then another challenge is to identify crops that can grow efficiently in the shade.

Either way, the solar + farming movement has already caught the attention of the US Energy Department’s National Renewable Energy Laboratory, which is looking for ways to protect farmland against overpopulation by utility-scale solar arrays. The agency’s Office of Renewable Energy and Energy Efficiency has also published a handy “Farmer’s Guide to Going Solar.”

Solar panels + regenerative agriculture, better

All of this is good stuff, but it gets even better. A new solar project soon to start construction on a farm in Grafton, Massachusetts is aiming to do double duty as a holistic preservation tool that helps improve soil and enhance nutrition for grazing animals.

The ultimate goal is to create a more sustainable farm economy and cultivate the next generation of farmers. That’s an especially important consideration in Massachusetts, where farmers need to stay in the business of farming in order to maintain good standing with the state’s SMART solar incentive program for farmers.

The Boston-based developer BlueWave Solar is spearheading the project, and Clean Technica recently spoke with the company’s head of sustainability, Drew Pierson, for some additional details.

“BlueWaveBW has been around for just under 10 years as community solar developer, and we’ve always had an ethos of doing right by people and planet and furthering environmental conservation,” Pierson explained.

The company was an early agrivoltaic adopter and has been working closely with the University of Massachusetts, which administers the SMART program among other solar initiatives. The collaboration with BlueWave includes a shade modeling tool for solar arrays to help with agricultural land use planning.

The Grafton solar project includes 12 acres set aside for grazing, and two acres for raising vegetables, such as strawberries, leafy greens and pumpkins.

For both arrays, Pierson explained, the solar panels will be raised about 10 feet off the ground, and every third panel will be removed in order to let more sunlight in.

Taking advantage of yet another twist in the farm + solar saga, the solar panels will be bifacial, meaning their back side can convert solar energy reflected from the ground. Researchers are already exploring ways to enhance this “ground albedo” effect with different types of ground coverings, including vegetation. That could lead to additional enhancements in solar cell efficiency on farmland.

Solar panels on farms: But wait, there’s more

If all goes according to plan, the regenerative agriculture part of the project will really kick in when monitoring equipment is installed.

“This might be the basis for putting carbon back in the soil,” Pierson said. “We can measure how the land responds to this kind of management technique, including the infiltration of stormwater, the density of grass, and the beneficial microclimate of the solar panels.”

The human factor also comes into play. The new solar development includes a manger who will facilitate communication between the farmer, the SMART incentive program, and the various stakeholders in the solar project. Part of the aim is to help smooth compliance issues for the farmer, but that’s just for starters.

The manager will also help support the farmer with agricultural planning and resources. In addition to keeping individual farms in business, the overall aim of the manager-assisted program is to create new opportunities for starting new farming operations and reviving dormant ones.

The Grafton farm, for example, was worked by the same family for decades until the financials stopped working. With a new solar array in hand, the land will go back into production for the first time in about 20 years.

Try that with your coal mine!

Author: Tina Casey

Source: Clean Technica

Arctic Ozone Depletion Tracks at Record Levels

Photo-illustration: Pixabay

Depletion of the ozone layer, ­ the shield that protects life on Earth from harmful levels of ultraviolet radiation, ­is at an unprecedented  level over large parts of the Arctic this spring. This phenomenon is caused by the continuing presence of ozone­-depleting substances in the atmosphere and a very cold winter in the stratosphere (the layer of the atmosphere between around 10 km and round 50 km altitude).

Photo-illustration: Pixabay

Total ozone columns over large parts of the Arctic have reached record-breaking low values this year with a severe ozone depletion at altitudes of around 18 km. The last time similarly strong  ozone depletion was observed over the Arctic was during spring 2011, and ozone depletion in 2020 seems on course to be even stronger, according to the Copernicus Atmospheric Monitoring Service implemented by ECMWF.

Actions taken under an international agreement called the Montreal Protocol have led to decreases in the atmospheric abundance of controlled ozone-depleting substances. But their concentrations in the upper atmosphere are still high enough to cause severe ozone destruction. The spring depletion is driven by a combination of factors including low temperatures in the Arctic stratosphere during polar night and the arrival of sunlight in the early spring.

The majority of the ozone depletion in the Arctic takes place inside the so-called polar vortex: a region of fast-blowing circular winds that intensify in the fall and isolate the air mass within the vortex, keeping it very cold. As the meteorological conditions and temperatures are different from year to year, the severity of the ozone depletion also fluctuates.  This means that occasional large Arctic ozone depletions are still possible .

The Arctic stratosphere is usually less isolated than the Antarctic one. Stratospheric temperatures in the Arctic usually do not fall as low as in the Antarctic stratosphere neither do they stay low for extended period of time.

However, this winter (2019-2020), the stratospheric polar vortex has been so strong and cold for so long that the temperatures in the Arctic stratosphere have dropped to levels more typical for over Antarctica, creating a large area of polar stratospheric clouds and promoting chemical processes that deplete ozone. Atmospheric conditions blocking wind-driven resupply of ozone from the lower latitudes has also been a factor.

By contrast with the Arctic, the 2019 ozone hole over Antarctica was the smallest on record since the ozone hole was first discovered.

UV Radiation

WMO’s Global Atmosphere Watch Network has stations in the Arctic and these are performing high-quality measurements of  both ozone and Ultraviolet (UV) radiation.

The 2020 conditions are similar to the spring of 2011 when the ozone losses over the Arctic were near 50%. The depletion of the Arctic ozone led to an increase in surface UV radiation in the spring of 2011, with scientists observing a 60% increase in the UV Index in the Canadian Arctic, and an even higher increase over Northern Europe.

Moreover, ozone depletion in the Arctic affects the total ozone budget resulting in an increase of summertime UV levels over Canada and Europe. Each year, based on springtime ozone levels, a summer seasonal UV forecast is provided to the public in different countries.

Montreal Protocol

The most recent Scientific Assessment of Ozone Depletion from WMO and the UN Environment Programme shows that the ozone layer in parts of the stratosphere has recovered at a rate of 1-3% per decade since 2000. At projected rates, Arctic and Northern Hemisphere mid-latitude ozone is expected to heal completely before the middle of the century (~2035) followed by the Southern Hemisphere mid-latitude around mid-century, and Antarctic region by 2060.

Without the Montreal Protocol, this year’s ozone destruction would most likely have been worse. Ozone depleting substances such as chlorofluorocarbons (CFCs) and halons, once present in refrigerators, spray cans and fire extinguishers, have been phased out under the Montreal Protocol. Nevertheless, the atmospheric measurements and analysis allowed to detect the renewed emissions of some of the controlled substances, stressing the importance of continuous observations of these constituents.

The slow recovery of the ozone layer is due to the fact that ozone depleting substances stay in the atmosphere for several decades.

Source: WMO

COP26 Postponed Due to COVID-19

Photo-illustration: Pixabay
Photo-illustration: Pixabay

The COP26 UN climate change conference set to take place in Glasgow in November has been postponed due to COVID-19.

This decision has been taken by the COP Bureau of the UNFCCC (United Nations Framework Convention on Climate Change), with the UK and its Italian partners.

Dates for a rescheduled conference in 2021, hosted in Glasgow by the UK in partnership with Italy, will be set out in due course following further discussion with parties.

In light of the ongoing, worldwide effects of COVID-19, holding an ambitious, inclusive COP26 in November 2020 is no longer possible.

Rescheduling will ensure all parties can focus on the issues to be discussed at this vital conference and allow more time for the necessary preparations to take place. The UNFCCC will continue to work with all involved to increase climate ambition, build resilience and lower emissions.

COP26 President-Designate and Secretary of State for Business, Energy and Industrial Strategy Alok Sharma said: “The world is currently facing an unprecedented global challenge and countries are rightly focusing their efforts on saving lives and fighting COVID-19. That is why we have decided to reschedule COP26. We will continue working tirelessly with our partners to deliver the ambition needed to tackle the climate crisis and I look forward to agreeing a new date for the conference.”

UN Climate Change Executive Secretary Patricia Espinosa said: “COVID-19 is the most urgent threat facing humanity today, but we cannot forget that climate change is the biggest threat facing humanity over the long term. Soon, economies will restart. This is a chance for nations to recover better, to include the most vulnerable in those plans, and a chance to shape the 21st century economy in ways that are clean, green, healthy, just, safe and more resilient. In the meantime, we continue to support and to urge nations to significantly boost climate ambition in line with the Paris Agreement.”

Italian Minister for the Environment, Land and Sea Protection, Sergio Costa, said: “Whilst we have decided to postpone COP26, including the Pre-COP and ‘Youth for the Climate’ event, we remain fully committed to meeting the challenge of climate change. Tackling climate change requires strong, global and ambitious action. Participation from the younger generations is imperative, and we are determined to host the ‘Youth for the Climate’ event, together with the Pre-COP and outreach events. We will continue to work with our British partners to deliver a successful COP26.”

COP25 President, Minister Carolina Schmidt, said: “The decision of the Bureau on the postponement of COP26 is unfortunately a needed measure to protect all delegates and observers. Our determination is to make sure that the momentum for climate ambition will continue, particularly for the preparation and submissions of new NDCs this year”.

Source: UNFCCC

Innovative Sustainable Solutions

Photo: Olja Simovic

Ecology and environmental conservation are known as one of the fields of science and life. However, climate change and awareness of the consequences of human activities indicate the growing need to intensify the principle of sustainability in all the fields.

Photo: Private archive of Ivana Kostic

Innovations are an effective mechanism for creating solutions for many challenges. Support to innovation makes it possible to meet the challenges both at local and global level, and the Innovation Fund of the Republic of Serbia (the Fund) has been doing that since 2011 in cooperation with the World Bank and the European Union.

Among many projects applying for the innovation support implemented by the Fund, there is a significant number of those coming precisely from the field of energy efficiency and environmental protection. Nine per cent of the total number of funded projects come from energy efficiency, and it is the fifth area in terms of incidence, after projects in the field of information and communication technologies, agriculture and food, machinery and mechanical engineering and software development. Environmental projects account for 3 per cent and are ranked ninth. The trend of applied and funded projects in these areas has been increasing over the years.

It is important to note that the Fund does not allocate funding based on priority or preferential areas and that there is no sectoral focus. On the other hand, an essential factor is the monitoring of the number of applications and the number of projects financed in each area, to identify trends and channel finances through future targeted calls and new programs.

The Technology Transfer Office has been operating within the Fund since 2016 and successfully cooperates with the Serbian academic society, supporting scientific innovations and scientific research. The development of several sustainable technologies has been supported through The Technology Transfer program and The Innovation Voucher program. The idea is to continue the trend through the new program – The Proof of Concept program.

Examples of Supported Projects

The new catalyst for the dehalogenation of freon comes from the Innovation Centre of the Faculty of Technology and Metallurgy in Belgrade. It aims at the more efficient elimination of freon from the environment. Freons are known to be released from cooling systems, fire guishing systems and polyurethane foams for thermal insulation, thereby damaging the ozone layer. The innovative catalyst provides 95.5 per cent efficiency.

Dr. Knight is a spin-off project (created as a by-product of the main project, editorial note), originating from the Faculty of Technology and Metallurgy in Belgrade, dealing with the production of multifunctional colour catcher laundry balls. This technology is patented, and the balls have a dual function: in addition to removing colours quickly, to prevent the transition from one fabric to another, they also serve as a fabric and water softener and can be reused. First of all, they are biodegradable and produced in an energy efficient manner.

In addition to academic society, the Fund has successfully financed the innovations of micro, small and medium sized enterprises since its inception. Solagro is one of those projects. It deals with developing a new model of smart press for can recycling. They stand out for the most technically advanced smart press mechanism that reduces waste volume by 90 per cent compared to the initial state, providing a better user experience with an attractive design in comparison to other existing mechanisms. The Fund funded this start-up through the Early Development Program for a year, after which the device was ready for use. This press has been installed in more than 150 locations in 9 countries worldwide, and the company has collaborated with more than 30 clients, including global brands Ball packaging, Coca-Cola, Molson Coors and others. Through its innovative approach and attractive packaging, Solagro achieves its goal of motivating people to recycle.

In the cooperation with the Finnish Embassy, the Fund has organised four local competitions for Slush start-ups. Local winners had the opportunity to take part in global competition and participate in the Slush conference in Finland. The fourth competition in 2018 was the topic of sustainable innovation where more than 25 start-ups from Serbia applied, 11 of which were shortlisted. All of them have developed or are still developing solutions in the field of sustainable, green innovation, including energy efficiency and environmental protection.

By the decision of Finnish experts in Serbia, the start-up Box System was the winner of the local Slush competition in 2018. Box System designed eco-friendly food transport boxes that require specific temperature conditions called WooBox. The boxes are made of wood and wool as a natural alternative to expanded polystyrene foam. This team strives to become an important link in the circular economy chain in the global market and thus contribute to the sustainable future of our planet.

Further Development of Innovations

Photo: Solagro

The question is what to do next and where to direct the focus of start-ups and new scientific research so that the field of sustainability would make sense. Numerous technologies drive innovation, but the question is, how do new technologies themselves affect sustainability? It is also one of the topics that Health Tech Lab (HTL) deals with and will continue dealing with. HTL enables the formation and development of innovations in the health technology ecosystem as well as the digitization of healthcare in a sustainable way. It cooperates with start-ups such as AlgiOx – a start-up that has created a smart indoor air purification system to prevent a number of health issues, and the system also produces oxygen. The Energy Portal also wrote about HTL’s work related to sustainability.

Digitization is one of the priorities for all governments as it contributes to the quality of life through economic growth, productivity gains and employment rates. However, data centres also contribute significantly to emissions due to high energy consumption and often inappropriate cooling systems, consuming up to 2 per cent of global electricity, with a growth rate of 12 per cent annually. Additionally, the typical life span of a device is about 2 to 3 years, and there is intense energy consumption to design, assemble, pack and deliver these devices to consumers worldwide. It all affects the increase of e-waste, including all household appliances.

When the electronics are not recycled appropriately, the raw materials in them release toxic chemicals into the ground and therefore into our food. Compared to conventional municipal waste, certain components of electrical products contain toxic substances that can create threats to the environment as well as to human health (increased risk of cancer and neurologic disease). For examples, television and computer monitors typically contain hazardous materials such as lead, mercury and cadmium, while nickel, beryllium and zinc are often present in switchboards.

Ivana Kostic

Read the whole article in the new issue of Energy portal Magazine GRINNOVATIONS, December 2019 – February 2020.

Waste Management an Essential Public Service in the Fight to Beat COVID-19

Photo-illustration: Pixabay

With the coronavirus disease (COVID-19) pandemic continuing to spread and its impacts upon human health and the economy intensifying day-by-day, governments are urged to treat waste management, including of medical, household and other hazardous waste, as an urgent and essential public service in order to minimise possible secondary impacts upon health and the environment.

Photo-illustration: Pixabay

During such an outbreak, many types of additional medical and hazardous waste are generated, including infected masks, gloves and other protective equipment, together with a higher volume of non-infected items of the same nature. Unsound management of this waste could cause unforeseen “knock-on” effects on human health and the environment. The safe handling, and final disposal of this waste is therefore a vital element in an effective emergency response.

Effective management of biomedical and health-care waste requires appropriate identification, collection, separation, storage, transportation, treatment and disposal, as well as important associated aspects including disinfection, personnel protection and training. The UN Basel Convention’s Technical Guidelines on the Environmentally Sound Management of Biomedical and Healthcare Wastes, includes information and practical aspects of waste management useful for authorities seeking to minimise hazards to human health and the environment.

Further resources on the safe handling and final disposal of medical wastes can be found on the website of the Basel Convention’s Regional Centre for Asia and the Pacific, in Beijing, which lists a series of guidance documents and best practices.

The safe management of household waste is also likely to be critical during the COVID-19 emergency. Medical waste such as contaminated masks, gloves, used or expired medicines, and other items can easily become mixed with domestic garbage, but should be treated as hazardous waste and disposed of separately. These should be separately stored from other household waste streams and collected by specialist municipality or waste management operators. Guidelines on the specificities of recycling or disposing of such waste is given in detail in the Basel Convention’s Factsheet on Healthcare or Medical Waste.

Parties to the Basel Convention are currently working on a guidance document for soundly managing household waste and whilst not yet finalized, an initial draft may be consulted for provisional guidance.

The BRS Executive Secretary, Rolph Payet, stated that “All branches of society are coming together to collectively beat the virus and to minimize the human and economic impact of COVID-19 across the world. In tackling this enormous and unprecedented challenge, I urge decision-makers at every level: international, nationally, and at municipal, city and district levels, to make every effort to ensure that waste management, including that from medical and household sources, is given the attention – indeed priority – it requires in order to ensure the minimization of impacts upon human health and the environment from these potentially hazardous waste streams.”

Source: UNEP

Renewables Account for Almost Three Quarters of New Capacity in 2019

Photo: IRENA

The renewable energy sector added 176 gigawatts (GW) of generating capacity globally in 2019, marginally lower than the (revised) 179 GW added in 2018. However, new renewable power accounted for 72 per cent of all power expansion last year, according to new data released by the International Renewable Energy Agency (IRENA).

Photo: IRENA

IRENA’s annual Renewable Capacity Statistics 2020 shows that renewables expanded by 7.6 per cent last year with Asia dominating growth and accounting for 54 per cent of total additions. While expansion of renewables slowed last year, total renewable power growth outpaced fossil fuel growth by a factor of 2.6, continuing the dominance of renewables in power expansion first established in 2012. Solar and wind contributed 90 per cent of total renewable capacity added in 2019.

“Renewable energy is a cost-effective source of new power that insulates power markets and consumers from volatility, supports economic stability and stimulates sustainable growth,” said IRENA Director-General Francesco La Camera. “With renewable additions providing the majority of new capacity last year, it is clear that many countries and regions recognise the degree to which the energy transition can deliver positive outcomes.”

“While the trajectory is positive, more is required to put global energy on a path with sustainable development and climate mitigation – both of which offer significant economic benefits,” continued Mr. La Camera. “At this challenging time, we are reminded of the importance of building resilience into our economies. In what must be the decade of action, enabling policies are needed to increase investments and accelerate renewables adoption.”

Renewables accounted for at least 70 per cent of total capacity expansion in almost all regions in 2019, other than in Africa and the Middle East, where they represented 52 per cent and 26 per cent of net additions respectively. The additions took the renewable share of all global power capacity to 34.7 per cent, up from 33.3 per cent at the end of 2018. Non-renewable capacity expansion globally followed long-term trends in 2019, with net growth in Asia, the Middle East and Africa, and net decommissioning in Europe and North America.

Solar added 98 GW in 2019, 60 per cent of which was in Asia. Wind energy expanded by close to 60 GW led by growth in China (26 GW) and the United States (9 GW). The two technologies now generate 623 GW and 586 GW respectively – close to half of global renewable capacity. Hydropower, bioenergy, geothermal and marine energy displayed modest year on year expansion of 12 GW, 6 GW, 700 MW and 500 MW respectively.

Asia was responsible for over half of new installations despite expanding at a slightly slower pace than in 2018. Growth in Europe and North America increased year on year. Africa added 2 GW of renewable capacity in 2019, half of the 4 GW it installed in 2018.

Highlights by technology:

  • Hydropower: Growth was unusually low in 2019, possibly because some large projects missed their expected completion dates. China and Brazil accounted for most of the expansion, each adding more than 4 GW.
  • Wind energy: Wind performed particularly well in 2019, expanding by nearly 60 GW. China and the United States continued to dominate with increases of 26 GW and 9 GW respectively.
  • Solar energy: Asia continued to dominate global solar capacity expansion with a 56 GW increase, but this was lower than in 2018. Other major increases were in the United States, Australia, Spain, Ukraine and Germany.
  • Bioenergy: Expansion of bioenergy capacity remained modest in 2019. China accounted for half of all new capacity (+3.3 GW). Germany, Italy, Japan and Turkey also saw expansion.
  • Geothermal energy: Geothermal power capacity grew by 682 MW in 2019, slightly more than in 2018. Again, Turkey led with an expansion of 232 MW, followed by Indonesia (+185 MW) and Kenya (+160 MW).
  • Off-grid electricity: Off-grid capacity grew by 160 MW (+2%) to reach 8.6 GW in 2019. In 2019, off-grid solar PV increased by 112 MW and hydropower grew by 31 MW, compared to growth of only 17 MW for bioenergy.

Read the Highlights of the key findings and the full report.

Source: IRENA

Not Business as Usual in Europe’s Largest Fishing Port

Photo: FAO/Miguel Riota

On almost any given day, at four-thirty in the morning, while most people are still sleeping, Europe’s biggest fishing port in Vigo, Spain is in full swing.

Photo: FAO/Miguel Riota

In normal times of operation, shouts ring out from the multitude of workers offloading containers of fish from ships docked at the landing site. They cart the broad variety of fish to a series of on-site processing rooms, where containers are stacked high. Skilled workers wield sharp knives at their workstations, where they expertly cut and prepare fish filets at record speed.

In the port halls, traceability labels with bar codes are added to each carton, clearly indicating the fish species, method of catch, and the FAO fishing zone from which it was harvested.

And, despite the darkness of night that casts its silence on this Galician coastal city, the grand halls of the port are filled to the brim and transformed into raucous spaces as competing auctioneers shout into their megaphones. They sing out prices in Spanish and Galician, attempting to entice customers into purchasing the fish stacked high in cartons around them. Their words are lost in the cacophony of bids that echo throughout the halls as crowds weave their way around the containers loaded with the bounties of the sea.

“The city of Vigo lives for its port,” according to Corina Porro, Vigo Delegate, Regional Government of Galicia, Spain.Nighttime in Vigo includes working in the fish markets… This is the life of Vigo, our city.”

But these are not normal times.

In this new era of COVID-19 and the need for physical distancing, what happens to this hive of daily activity – the sights, smells, sounds and relentless movement – that is Europe’s largest fishing port?

Spain is one of the countries that has been most affected by the COVID-19 epidemic. It is also the country that consumes the largest amounts of fish and seafood in Europe, at around 42.8 kilograms per capita annually.

Photo: FAO/Miguel Riota

Keeping operations going

To ensure food reaches consumers, who are largely quarantined in their homes, supply chains must be maintained. Therefore, Vigo’s port continues to be operational, while simultaneously protecting the health and welfare of its workers all along the fisheries value chain. But this is no small feat.

“We have adopted, inasmuch as possible, the teleworking technology… in this way, we haven’t reduced staff, even if we have drastically reduced presence at the port premises. This is working reasonably well,” describes Enrique López-Veiga, Vigo Port Authority President.There are very few workers present on the premises, so interpersonal distance requirements are met. Hygiene and constant cleaning are also a must [to be in line with new regulations].”

“The biggest challenges are to keep the Port of Vigo fully operational, especially when it comes to the fresh fish market. This is a daily operation, since frozen fish depends less on the day-to-day marketing and storage.”

Consumers in a crisis

Vigo’s struggles are not unique. These effects are being felt throughout fisheries value chains around the world. Fish provide more than 20 percent of the average per capita animal protein intake for 3 billion people, more than 50 percent in some less developed countries, and it is one of the most traded food commodities globally. Thus, the impact on the livelihoods of fisher communities, food security, nutrition and trade, especially in those countries that rely heavily on the fishing sector, is expected to be significant.

In addition to the challenges in the fisheries sector, the crisis has also affected the way consumers behave and what they buy. This is especially noticeable in a country like Spain with high levels of fish consumption.

“Because of the restrictions on movement, customers are no longer going to the markets and that decreases the demand on fresh fish, but especially on the high price products like shellfish and crustaceans. Those are products that consumers abandon quickly in a crisis,” explains López-Veiga. “This results in a general decrease of prices paid to producers, especially to the artisanal and small-scale fisheries sector.”

“We are pleased to see Vigo’s impressive efforts to keep its fisheries supply chains operational in these difficult times,” says Audun Lem, Deputy-Director of FAO Fisheries and Aquaculture Department. “Fisheries value chains are extremely long, complex and international, even in ordinary times. We appreciate the extraordinary efforts undertaken around the world during the current crisis to keep supply chains open and to ensure that healthy fish and seafood products, a key component of nutritious diets, are reaching the end consumer.”

Photo: FAO/Miguel Riota

Sustainable and supportive

A big proponent of small-scale fisheries, Vigo has, in recent years, been active in innovating and promoting its role as a “Blue Port”, focusing on conservation of the marine environment, while simultaneously improving the socioeconomic and labour conditions of those whose livelihoods depend on the port and its activities.

Vigo has been partnering with FAO and other ports around the world to create a network of sustainable Blue Ports, to support each other in exchanges of information and international training in areas such as fisheries inspections.

In the time of COVID-19, this network and collaboration of ports provides the added benefit of sharing experiences in responding to the crisis and, eventually, in bouncing back once the crisis has been resolved.

According to López-Veiga, the port is already taking stock of lessons learned during this crisis: “We think that the path the Vigo port has taken, on Transparency, Traceability, Quality and Sustainability, which implies a high degree of informatization and control of the systems – has facilitated the implementation of the extraordinary measures we are now facing. This reaffirms our belief that we must keep advancing along this line in the future.”

Europe’s largest fishing port will once again buzz with ceaseless activity, sounds and movement, and Vigo and its network of Blue Ports will help build a stronger and more resilient fisheries value chains around the globe.

Amidst a crisis of this magnitude, the problems often appear insurmountable, and solidarity and a sense of community can be crucial to overcoming the challenges in guaranteeing that the food chain continues to operate. According to López-Veiga, community support has been vital to the port’s ability to carry out its operations in these difficult weeks. “As times goes by, stakeholders are increasingly aware of the need for self-discipline and solidarity. In that sense, we in Vigo may be proud about how things are developing in the port community, which reflects what is happening throughout the entire country.”

FAO is helping support countries through this COVID-19 pandemic. By providing policy recommendations on a variety of areas related to food and agriculture and offering a portal to share national strategies and policies, FAO is working to ensure that the impacts of COVID-19 on the food and agriculture sectors does not fall solely or irrevocably on the poor and food insecure. FAO is making sure these voices are heard and is standing beside countries in their responses during this difficult time. 

Source: FAO

Robust Monitoring and Targets Are Key in Shifting Europe to a More Circular Economy

Photo: Ana Batricevic
Photo: Ana Batricevic

Introducing more robust monitoring and targets to spur Europe’s move to a circular economy would help improve resource efficiency, according to a European Environment Agency (EEA) report.

The EEA report ‘Resource efficiency and the circular economy in Europe 2019 — even more from less’ gives an overview and assesses the results of a 2019 EEA survey involving 32 European countries from the EEA’s European Environmental Information and Observation Network (Eionet). It looks at European country policies and approaches to improve resource efficiency. The report notes that since 2016 there has been a noticeable shift in the focus of policies from improving resource efficiency to a broader circular economy perspective. Many aspects of the two overlap in policies, such as waste management and waste prevention, along with environmental and sustainable development strategies, innovation policies and economic programmes. The shift in focus is expected to consolidate even further as wider EU action is currently underway in this area, especially with the EU’s newly adopted Circular Economy Action Plan, which is one of the key parts of the  European Green Deal.

Indicators, targets and monitoring

The report’s survey found that in past years there was a general lack of target setting across Europe, which is needed to improve resource efficiency and drive the circular economy. In their surveys, countries noted that adopting national targets is often politically difficult. The survey also found that universally accepted indicators, that would coherently address the different aspects of the circular economy, would help improve both the adoption and use of targets in this area as well as informing a more comprehensive monitoring system.

The report highlights the widely different approaches and levels of advancement among the countries surveyed.

While policies on resource efficiency, raw material supply and the circular economy have different focuses, the report notes that all three are strongly related and mutually supported. Resource efficiency and raw material supply addresses the links between nature and Europe’s socio-economic system, while the circular economy addresses the socio-economic system itself.

Background

The report is based on the third survey the EEA has conducted since 2011 looking at national policy responses in Eionet member countries. While the scope of these surveys has evolved over the years along with the policy agenda, together they provide  timely information on continuities, differences and new trends and what these mean for the development of policies on resource efficiency and the circular economy in Europe.

The report reflects information published by EEA in August 2019, via country profiles.

Source: EEA

The Investment Case for Energy Transition in Africa

Photo-illustration: Pixabay

Falling technology costs have made renewable energy a cost-effective way to generate power in countries all over the world, which would drive further development and improved economy. Despite the tremendous efforts that have been deployed at national and regional levels, 580 million Africans still do not have access to modern sources of electricity. A strategic partnership between IRENA and the United Nations Development Programme (UNDP) is working to solve this challenge by unlocking the capital necessary to help Africa realise its full renewable energy and economic potentials.

Photo-illustration: Pixabay

IRENA’s Scaling Up Renewable Energy Deployment in Africa shows that Africa has the potential to install 310 gigawatts of clean renewable power—or half the continent’s total electricity generation capacity—to meet nearly a quarter of its energy needs by 2030. It is therefore crucial for Africa to step up its efforts to generate significant investments and business opportunities to boost the growth of renewable energy in the continent.

Working together, IRENA and the UNDP through its Africa Centre for Sustainable Development (ACSD) co-presented the case for unlocking the renewable energy potential in Africa through increasing investments flows, during the 12th Africa Energy Indaba in Cape Town in February 2020. IRENA estimates that Africa requires an annual investment of USD 70 billion in renewable energy projects until 2030 for clean energy transformation to take place. The clean energy access would increase energy security, create green jobs, and support key developing outcomes such as improved healthcare and education. Additionally, renewable energy deployment would curb the rising carbon emissions and enhance Africa’s resilience to climate change impacts.

IRENA used the occasion of Africa Energy Indaba as an opportunity to share further insights on ways to support Africa in its energy transition journey, which includes the Climate Investment Platform (CIP) – an initiative that is now open for registrations from project developers and partners. CIP is designed to scale up climate action and catalyse the flow of capital to clean energy initiatives. The platform will add a significant value to Africa’s efforts to increase the share of renewables in its energy sector, as it serves to facilitate the matchmaking of bankable projects with potential investors, as well as to enable frameworks for investment by promoting multi stakeholders dialogues to address policy and regulatory challenges.

IRENA provides other useful information on financing renewables, that can be found in the Renewable Energy Finance Briefs, as well as comprehensive, easily accessible, and practical project preparation tool to assist the development of bankable renewable energy projects.

Source: IRENA

Home School with a Virtual Dive into the Ocean

Photo-illustration: Pixabay
Photo-illustration: Pixabay

Remote diving is the new remote working.

Schools, events and activities in so much of the world have come to a standstill in the wake of COVID-19, with little or no movement recommended. But that does not mean we cannot still enjoy the world and mysteries that abound below and above its surface.

The Ocean Agency, a partner of the United Nations Environment Programme, is inviting parents and their little ones to experience the ocean and its astounding life forms from the comfort of their homes through a little armchair travel.

Get inspired and engaged with virtual dives, expeditions and ocean quizzes about the fascinating underwater world in a click on your phone or laptop.

Discover coral reefs—some of the Earth’s most diverse ecosystems, full of color, life and mystery—and why they are vanishing at an unprecedented rate due to climate change, pollution and other destructive human activities. Find out why corals are glowing and what this means, not only for marine life, but also for our planet through the “Adventure behind Chasing Coral”, the Voyager story that features the glowing corals phenomenon.

Who is your kindred reef species? Discover and make your own photo morph to share on social media here.

Get more details about coral reefs, which a quarter of all marine life calls home, and meet some of the ocean’s most captivating creatures through the Google Earth Voyager. It is available on desktop, laptop, iPhone and iPad. Download the Google Earth App to dive in to explore the fascinating underwater world, including remnants of World War II as they stand today.

Take an excursion and encounter marine animals, manmade coral reefs and explore shipwrecks using Google Expeditions, available on iPhone and iPad only.

Explore much more here: https://theoceanagency.org/oceanedu!

Source: UNEP